Activated Carbon for Pharmaceutical Removal at Point-of-Entry

Pharmaceuticals are an increasing problem in waterways due to improper disposal and lack of removal at wastewater treatment plants. Long-term exposure impacts to humans are unknown but have been observed in model organisms (i.e., fish), impacting reproduction, changing temperament, and causing organ...

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Main Authors: Michelle Finn, Gabrielle Giampietro, David Mazyck, Regina Rodriguez
Format: Article
Language:English
Published: MDPI AG 2021-06-01
Series:Processes
Subjects:
Online Access:https://www.mdpi.com/2227-9717/9/7/1091
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spelling doaj-114f6bedf48c46c580b78a4c1b071e122021-07-23T14:02:54ZengMDPI AGProcesses2227-97172021-06-0191091109110.3390/pr9071091Activated Carbon for Pharmaceutical Removal at Point-of-EntryMichelle Finn0Gabrielle Giampietro1David Mazyck2Regina Rodriguez3Department of Environmental Engineering Sciences, University of Florida, 314 AP Black Hall, Gainesville, FL 32611, USADepartment of Environmental Engineering Sciences, University of Florida, 314 AP Black Hall, Gainesville, FL 32611, USADepartment of Environmental Engineering Sciences, University of Florida, 314 AP Black Hall, Gainesville, FL 32611, USAC12 Environmental Services, Gainesville, FL 32607, USAPharmaceuticals are an increasing problem in waterways due to improper disposal and lack of removal at wastewater treatment plants. Long-term exposure impacts to humans are unknown but have been observed in model organisms (i.e., fish), impacting reproduction, changing temperament, and causing organ damage. The application of activated carbon (AC) for organic contaminant removal is widespread and applied successfully for water treatment. The objective of this study is to rapidly adsorb ibuprofen using AC to determine the feasibility as a point-of-entry treatment option for removal of pharmaceuticals in the toilet. AC factors analyzed include type of AC raw material, adsorbent particle size, contact time, and competitive adsorption of ibuprofen and common toilet bowl cleaner components such as chlorine and methylene blue dye. A coconut-based AC with a high surface area adsorbed the highest quantity of ibuprofen. There was no significant impact to ibuprofen adsorption upon the introduction of other compounds to the solution, thus demonstrating rapid adsorption and the potential for application at the point-of-entry.https://www.mdpi.com/2227-9717/9/7/1091activated carbonibuprofensurface areasurface chemistryraw materialsadsorption kinetics
collection DOAJ
language English
format Article
sources DOAJ
author Michelle Finn
Gabrielle Giampietro
David Mazyck
Regina Rodriguez
spellingShingle Michelle Finn
Gabrielle Giampietro
David Mazyck
Regina Rodriguez
Activated Carbon for Pharmaceutical Removal at Point-of-Entry
Processes
activated carbon
ibuprofen
surface area
surface chemistry
raw materials
adsorption kinetics
author_facet Michelle Finn
Gabrielle Giampietro
David Mazyck
Regina Rodriguez
author_sort Michelle Finn
title Activated Carbon for Pharmaceutical Removal at Point-of-Entry
title_short Activated Carbon for Pharmaceutical Removal at Point-of-Entry
title_full Activated Carbon for Pharmaceutical Removal at Point-of-Entry
title_fullStr Activated Carbon for Pharmaceutical Removal at Point-of-Entry
title_full_unstemmed Activated Carbon for Pharmaceutical Removal at Point-of-Entry
title_sort activated carbon for pharmaceutical removal at point-of-entry
publisher MDPI AG
series Processes
issn 2227-9717
publishDate 2021-06-01
description Pharmaceuticals are an increasing problem in waterways due to improper disposal and lack of removal at wastewater treatment plants. Long-term exposure impacts to humans are unknown but have been observed in model organisms (i.e., fish), impacting reproduction, changing temperament, and causing organ damage. The application of activated carbon (AC) for organic contaminant removal is widespread and applied successfully for water treatment. The objective of this study is to rapidly adsorb ibuprofen using AC to determine the feasibility as a point-of-entry treatment option for removal of pharmaceuticals in the toilet. AC factors analyzed include type of AC raw material, adsorbent particle size, contact time, and competitive adsorption of ibuprofen and common toilet bowl cleaner components such as chlorine and methylene blue dye. A coconut-based AC with a high surface area adsorbed the highest quantity of ibuprofen. There was no significant impact to ibuprofen adsorption upon the introduction of other compounds to the solution, thus demonstrating rapid adsorption and the potential for application at the point-of-entry.
topic activated carbon
ibuprofen
surface area
surface chemistry
raw materials
adsorption kinetics
url https://www.mdpi.com/2227-9717/9/7/1091
work_keys_str_mv AT michellefinn activatedcarbonforpharmaceuticalremovalatpointofentry
AT gabriellegiampietro activatedcarbonforpharmaceuticalremovalatpointofentry
AT davidmazyck activatedcarbonforpharmaceuticalremovalatpointofentry
AT reginarodriguez activatedcarbonforpharmaceuticalremovalatpointofentry
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